Mahammad Ayvazov

[This Masters Thesis stands primarily as a reference point in the development of culture and technology. Completed at the University of Oregon in 2012, when ideas of "Strong AI" (now AGI) had fallen into broad disrepute and most researchers predicted a timeline of centuries or never for AI to reach capacities it then reached in fifteen years, this work's predictions regarding the trajectory to come are in retrospect singularly prescient.] "This study examines the role of the strong artificial intelligence concept as an organizing principle in AI research. Strong AI, defined as artificial systems capable of performing any intellectual task that humans can, has become controversial following the field's unfulfilled promises of the 1960s-70s. Many researchers now avoid the term entirely. This work argues that abandoning the strong AI vision may be counterproductive for the field's development. Through analysis of five major paradigms—the problem-solving paradigm, supercomputing, connectionism and mathematical modeling, data-driven AI (DDAI), and nouvelle AI—this thesis evaluates contemporary approaches to artificial intelligence. Each is analyzed for its contributions and limitations regarding strong AI. Based on current trajectories, the author anticipates that, considering exponential growth in computational resources and recent algorithmic advances, strong AI may emerge within decades rather than centuries, assuming scientific progress continues. Examining IBM Watson's recent Jeopardy victory through statistical analysis rather than symbolic reasoning, the author anticipates that data-driven approaches will become increasingly dominant, suggesting that "statistical pattern analysis... may be at the core of cognition." Given recent successes and breakthroughs in cognitive sciences, the author recontextualizes statistical processes as potentially fundamental to intelligence mechanisms rather than merely computational tools. Connectionist architectures are evaluated not separately but conjoined to data-driven approaches, understood as most likely fusing towards large-scale parallel distributed processing capable of emergent intelligence rather than the symbolic reasoning, rule-based approaches that have dominated the field thus far. Given the limitations demonstrated by logic-based systems like Shakey and the General Problem Solver, this analysis suggests that intelligence will emerge from massive networks of simple processing units rather than from programmed logical rules. This bottom-up emergence through what the author calls "feedback and recursion" in dynamical systems appears to be more promising than top-down symbolic manipulation. This combination of such distributed statistical learning with increasingly digitized information is expected to enable capabilities previously thought impossible without explicit programming. Drawing on Hofstadter's (2001) assertion that "analogy is the core of cognition," this analysis also predicts that pattern recognition and analogical reasoning will prove essential for artificial general intelligence. Systems will need to recognize patterns in one context and apply them in novel situations: capabilities the author expects to emerge from distributed statistical learning rather than explicit rules. Regarding embodiment, the thesis cites Brooks' (1991) argument that high-level behaviors will be "very simple" for systems that have mastered sensorimotor fundamentals. The author links physicality with social processing, considering the two as fundamentally interconnected through somatic-emotional embodiment. While acknowledging Moravec's Paradox – that tasks easy for humans are difficult for computers and vice versa – the analysis notes that social processing capabilities appear as necessary for language acquisition and other fundamentally social aspects of human knowledge. Systems lacking these capabilities would "at best behave with extreme autism." The author concludes that some form of social interaction across developmental trajectories – whether in actual physical embodiment or simulated social environments – is likely necessary for Strong AI. Building on social intelligence, this thesis positions Strong AI not so much as a solitary development “within the machine” as an emergence occurring as a relationship with and within humankind. The author notes that technology has enhanced human capabilities "since the first paintings appeared on caves,” and anticipates increasing human-machine integration with AI functioning as a cognitive partner, whether through UI interactions or, eventually, through direct neural interfaces. Considering Moore's Law and current supercomputing trajectories, the analysis suggests computational resources may become sufficient for brain-scale neural simulations within two decades, while emphasizing that "raw computational power alone will not suffice" without corresponding algorithmic advances. The thesis proposes that strong AI will likely require modular integration of multiple capabilities: logical reasoning, distributed processing or neural architectures at scale, pattern analysis with analogical representation, and embodied socioemotional processing. Following Moravec (1988), the author anticipates that top-down and bottom-up approaches will eventually converge, with "fully intelligent machines" resulting when "the metaphorical golden spike is driven uniting the two efforts." The work concludes that the strong AI vision provides essential value as an organizing principle uniting these efforts, facilitating synthesis between disparate research areas. The author suggests that the current milieu’s dismissal of strong AI as impossible may underestimate convergent progress across multiple domains. While acknowledging technical challenges and timeline uncertainties, the thesis presents a compelling case for taking seriously the possibility that artificial general intelligence may emerge within current researchers' professional lifetimes." Published January 2012. DOI: 10.13140/RG.2.2.33546.99520